strain energy

'strain energy' can also refer to...

strain energy

strain energy

strain energy

complementary strain energy

strain-energy density

elastic strain energy

Dark energy as an elastic strain fluid

Pure shear axes and elastic strain energy

Viscous Energy Dissipation and Strain Partitioning in Partially Molten Rocks

Compressible isotropic strain energies that support universal irrotational finite deformations

On Isotropic, Frame‐Invariant, Polyconvex Strain‐Energy Functions

Optimal energy-harvesting cycles for load-driven dielectric generators in plane strain

Isolation and characterization of an obligately chemolithoautotrophic Halothiobacillus strain capable of growth on thiocyanate as an energy source

Lithoautotrophic growth of the freshwater strain Beggiatoa D-402 and energy conservation in a homogeneous culture under microoxic conditions

Energy-Yielding Properties of SoxB-Type Cytochrome bo 3 Terminal Oxidase: Analyses Involving Bacillus stearothermophilus K1041 and Its Mutant Strains

Impact of local strain on Ti-L2,3 electron energy-loss near-edge structures of BaTiO3: a first-principles multiplet study

P333Dual energy cardiac computed tomography to guide cardiac resynchronisation therapy: a feasibility study using coronary venous anatomy, scar and strain to guide optimal left ventricular lead placement

Three oligotrophic bacterial strains were cultured from the ground water of the deep-well monitoring site S15 of the Siberian radioactive waste depository Tomsk-7, Russia. They were affiliated with Actinobacteria from the genus Microbacterium. The almost fully sequenced 16S rRNA genes of two of the isolates, S15-M2 and S15-M5, were identical to those of cultured representatives of the species Microbacterium oxydans. The third isolate, S15-M4, shared 99.8% of 16S rRNA gene identity with them. The latter isolate possessed a distinct cell morphology as well as carbon source utilization pattern from the M. oxydans strains S15-M2 and S15-M5. The three isolates tolerated equal amounts of uranium, lead, copper, silver and chromium but they differed in their tolerance of cadmium and nickel. The cells of all three strains accumulated high amounts of uranium, i.e. up to 240 mg U (g dry biomass)−1 in the case of M. oxydans S15-M2. X-ray absorption spectroscopy (XAS) analysis showed that this strain precipitated U(VI) at pH 4.5 as a meta-autunite-like phase. At pH 2, the uranium formed complexes with organically bound phosphate groups on the cell surface. The results of the XAS studies were consistent with those obtained by transmission electron microscopy (TEM) and energy dispersive X-ray analysis (EDX)


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The ability of a body to do work because of its deformation and its tendency to return to its original shape. A fully extended bow, for example, has strain energy by virtue of the change in its shape. Strain energy is measured in joules and is given by the equation; SE = 1/2kd2, where SE is strain energy, k is a spring constant representing a material's ability to store energy on deformation, and d is the distance over which the material has been deformed.

Subjects: Sports and Exercise Medicine.

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